CN-121990367-A - Wide-area synchronous negative pressure adsorption device for bagged materials
Abstract
The invention relates to the technical field of chemical packaging, in particular to a wide-area synchronous negative pressure adsorption device for bagged materials; the invention comprises an outer shell, adsorption cotton, adsorption holes, an exhaust port, a flow expansion piece, a straight flow passage and a pressurizing pipe mechanism; the bottom surface of the outer shell is a hollowed surface, the adsorption cotton is arranged in the outer shell, a plurality of groups of adsorption holes are arranged in order and are formed in the bottom surface of the adsorption cotton, a group of exhaust ports are formed in one side of the outer shell, two flow expansion pieces are arranged on one side edge of the outer shell, two flow expansion pieces are arranged side by side, a direct current channel is transversely arranged at the bottom ends of the two flow expansion pieces, the direct current channel is positioned in an interlayer between the outer shell and the adsorption cotton, and a pressurizing pipe mechanism is arranged in the interlayer left between the adsorption cotton and the outer shell; according to the invention, the massive sponge is used for adsorbing cotton and a plurality of groups of adsorption holes which are orderly arranged on the surface of the massive sponge, so that a large-area flexible contact surface is provided, the adsorption force is uniformly dispersed, and the damage to the bag body due to stress concentration is avoided.
Inventors
- LI QIMING
- CHEN JUNHUA
- YANG WANKE
- ZHOU LI
- GUO YU
- DING ZHIJIE
- CHENG NIANSHOU
- WEI KAIYUAN
Assignees
- 蚌埠市万科硅材料科技有限公司
Dates
- Publication Date
- 20260508
- Application Date
- 20260225
Claims (10)
- 1. A wide domain synchronous negative pressure adsorption equipment for bagged materials, characterized by comprising: the device comprises an outer shell (1), wherein the bottom surface of the outer shell (1) is a hollowed-out surface; The adsorption cotton (2) is arranged in the outer shell (1), and an interlayer is reserved between the adsorption cotton (2) and the outer shell (1) The adsorption holes (3), wherein a plurality of groups of adsorption holes (3) are formed, and the adsorption holes (3) are orderly arranged and are formed in the bottom surface of the adsorption cotton (2); the exhaust ports (4) are arranged in a group, and one group of the exhaust ports (4) are arranged on one side of the outer shell (1); the flow expansion pieces (5), wherein two flow expansion pieces (5) are arranged, and the two flow expansion pieces (5) are arranged at one side edge of the outer shell (1) in a discharging way; The straight flow channels (6) are transversely arranged at the bottom ends of the two flow expansion pieces (5), and the straight flow channels (6) are positioned in the interlayer between the outer shell (1) and the adsorption cotton (2); The pressurizing pipe mechanism (7) is arranged in the interlayer reserved between the adsorption cotton (2) and the outer shell (1).
- 2. The wide-area synchronous negative pressure adsorption device for bagged materials according to claim 1, comprising: The double-wheel pressurizing piece (8), the double-wheel pressurizing piece (8) is arranged on the top surface of the outer shell (1), and the double-wheel pressurizing piece (8) is communicated with the pressurizing pipe mechanism (7); The two-wheeled pressure increasing member (8) comprises: A pressurizing housing (81), a bottom surface of the pressurizing housing (81) extending into the outer housing (1); a baffle plate (82), wherein the baffle plate (82) is arranged in the pressurizing shell (81) and divides the pressurizing shell (81) into two areas with equal area; -a first turbine member (83), said first turbine member (83) being built into one side of said baffle (82); and a second turbine member (84), wherein the second turbine member (84) is arranged on the other side of the baffle plate (82).
- 3. A wide-area synchronous negative pressure adsorption device for bagged materials according to claim 1, characterized in that the booster pipe mechanism (7) further comprises: The booster pipe mechanism (7) comprises a first pipe type (71) and a second pipe type (72), the first pipe type (71) is communicated with a region in which the first turbine part (83) is arranged, and the second pipe type (72) is communicated with a region in which the second turbine part (84) is arranged; the first tubular form (71) comprises: a first shunt tube (711), wherein one end of the first shunt tube (711) is communicated with one side of the direct current channel (6), and the other end of the first shunt tube (711) is communicated with a region in which the first turbine (83) is arranged; A first supercharging pipe (712), wherein the first supercharging pipe (712) is positioned in the extending direction of the other end of the first shunt pipe (711), one end of the first supercharging pipe (712) is communicated with the area in which the first turbine component (83) is arranged, and the other end of the first supercharging pipe (712) is communicated with the exhaust port (4); the second tubular form (72) comprises: A second pressure increasing pipe (721), wherein the shape of the second pressure increasing pipe (721) is the same as that of the first pressure increasing pipe (712), one end of the second pressure increasing pipe (721) is communicated with one side of the direct current channel (6), and the other end of the second pressure increasing pipe (721) is communicated with a region in which the second turbine (84) is arranged; -a second shunt tube (722), the second shunt tube (722) having the same shape as the first shunt tube (711), and one end of the second shunt tube (722) being in communication with the area in which the second turbine element (84) is built-in, the other end of the second shunt tube (722) being in communication with the exhaust port (4).
- 4. The wide-area synchronous negative pressure adsorption device for bagged materials according to claim 1, further comprising: -a supply valve (9), the supply valve (9) being located above the outer housing (1); -a vacuum generator (10), said vacuum generator (10) being in communication with the air inlet of said supply valve (9); A branch pipe (11), wherein the branch pipe (11) is provided with two exhaust ports (4), and the air inlet end of the branch pipe (11) is communicated with the vacuum generator (10); The flow guide pipes (12) are arranged, one ends of the two flow guide pipes (12) are respectively communicated with the two exhaust ports (4) of the flow dividing pipe, and the other ends of the two flow guide pipes (12) are communicated with the top ends of the two flow expansion pieces (5).
- 5. The wide-area synchronous negative pressure adsorption device for bagged materials according to claim 1, wherein the adsorption cotton (2) is made of sponge materials.
- 6. A wide-area synchronous negative pressure adsorption device for bagged materials according to claim 1, wherein the whole shape of two flow expansion pieces (5) is narrow at the upper part and wide at the lower part.
- 7. A wide area synchronous suction attachment for bagged materials as claimed in claim 3 in which the baffle (82) is S-shaped.
- 8. A wide-area synchronous negative pressure adsorption device for bagged materials according to claim 3, wherein the arrangement position of the first tube type (71) and the second tube type (72) corresponds to the position right above the adsorption hole (3), and the first tube type (71) and the second tube type (72) are communicated with the adsorption hole (3) below.
- 9. A wide-area synchronous negative pressure suction device for bagged materials according to claim 3, characterized in that the first pressurizing pipe (712) is a serpentine turn pipe type.
- 10. A wide-area synchronous suction attachment for bagged materials according to claim 3, characterized in that the first shunt tube (711) is a set of gas pipes arranged side by side.
Description
Wide-area synchronous negative pressure adsorption device for bagged materials Technical Field The invention relates to the technical field of chemical packaging, in particular to a wide-area synchronous negative pressure adsorption device for bagged materials. Background Silica is an inorganic compound with a chemical formula of SiO 2 and widely exists in minerals such as quartz and sand in nature. In the industrial field, high purity silica is usually present in the form of white powder or granules and is often packaged in elongated flexible bags for use as a desiccant, filler or chemical raw material. Because the bag is soft in shape and easy to slide on the surface, high requirements are put on the uniformity, the synchronism and the flexibility of adsorption in the automatic carrying process so as to avoid wrinkling, breakage or falling of the bag. However, the following problems are often encountered with existing devices in use: (1) Traditional silicon dioxide in bags can cause material bags to be wrinkled or partially not grabbed when the upright post stacker crane clamps and carries because of the shape of the long strips, and can cause the material bags to be clamped and broken by clamping jaws when serious. (2) If the carrying end of the column stacker crane is changed into a sucker mode, the local suction force is too strong to damage the bag body due to too small stressed area of adsorption, or the whole suction force is insufficient to cause that materials fall off in carrying, so that a uniform and stable negative pressure field cannot be quickly established on a large-scale adsorption surface. Disclosure of Invention The main object of the present invention is to provide a wide-area synchronous negative pressure adsorption device for bagged materials, which solves at least one of the above problems to some extent. In order to achieve the above purpose, the technical scheme adopted by the invention is as follows: A wide-area synchronous negative pressure adsorption device for bagged materials, comprising: The bottom surface of the outer shell is a hollowed-out surface; the adsorption cotton is arranged in the outer shell, and an interlayer is reserved between the adsorption cotton and the outer shell The adsorption holes are formed in a plurality of groups, and the groups of adsorption holes are orderly arranged and are formed in the bottom surface of the adsorption cotton; The exhaust ports are provided with a group, and the exhaust ports are arranged on one side of the outer shell; The two flow expansion pieces are arranged and are arranged at one side edge of the outer shell; the straight flow channels are transversely distributed at the bottom ends of the two flow expansion pieces and are positioned in the interlayer between the outer shell and the absorbent cotton; the pressurizing pipe mechanism is arranged in the interlayer reserved between the adsorption cotton and the outer shell. Comprising the following steps: the double-wheel pressurizing piece is arranged on the top surface of the outer shell and is communicated with the pressurizing pipe mechanism; the dual wheel booster includes: a booster shell, the bottom surface of which extends into the outer shell; the baffle plate is arranged in the pressurizing shell and divides the pressurizing shell into two areas with equal areas; A first turbine member, the first turbine member being disposed within one side of the baffle; And the second turbine part is internally arranged on the other side of the baffle plate. The booster pipe mechanism further includes: The supercharging pipe mechanism comprises a first pipe type and a second pipe type, the first pipe type is communicated with a region built in the first turbine part, and the second pipe type is communicated with a region built in the second turbine part; The first tubular form includes: The first shunt tube is communicated with one side of the direct current channel at one end of the first shunt tube, and the other end of the first shunt tube is communicated with an area in which the first turbine part is arranged; The first supercharging pipe is positioned in the extending direction of the other end of the first shunt pipe, one end of the first supercharging pipe is communicated with the area in which the first turbine part is arranged, and the other end of the first supercharging pipe is communicated with the exhaust port; The second tubular form includes: the appearance of the second supercharging pipe is the same as that of the first supercharging pipe, one end of the second supercharging pipe is communicated with one side of the direct current channel, and the other end of the second supercharging pipe is communicated with an area in which the second turbine part is arranged; And the appearance of the second shunt pipe is the same as that of the first shunt pipe, one end of the second shunt pipe is communicated with the area in which the second turbine part is arranged, and t